Vessel behavior recognition method for preventing vessel-bridge collisions via adaptive video analytics

This study presents a comprehensive end-to-end framework for recognizing vessel behaviors aimed at preventing vessel-bridge collisions in complex maritime environments. Current monitoring approaches that rely on Automatic Identification Systems or external tracking mechanisms often suffer from class imbalance, cross-domain variability, and limited capability to detect previously unseen high-risk behaviors. To address these challenges, the proposed framework directly analyzes video streams and introduces a standardized behavioral taxonomy, classifying vessel activities into eleven categories while incorporating temporal continuity and behavior transition modeling. A robust dataset construction pipeline is established, consisting of fixed-length frame sequences and mechanisms for cross-domain generalization. The framework integrates a spatio-temporal feature extraction module based on deformable convolution and multi-scale attention, coupled with a cross-instance mutual enhancement mechanism to capture domain-invariant representations. An open-set recognition strategy, grounded in class anchor clustering, enables accurate identification of previously unobserved high-risk behaviors. Furthermore, an adaptive frame sampling strategy dynamically adjusts sampling density around behavior transitions, enhancing recall and capturing infrequent events while minimizing computational cost. Extensive evaluations on both single-domain and multi-domain benchmark datasets, as well as real-world bridge video streams, demonstrate superior performance in terms of overall accuracy, F1-score, detection of rare behaviors, and recall compared with baseline methods. Ablation studies confirm the contribution of each component, and comparisons with open-set recognition methods underscore the practical utility of the proposed approach for anomaly detection. This framework provides a scalable, artificial intelligence-driven solution for vessel behavior recognition, anomaly detection, and cross-domain generalization, supporting intelligent monitoring and early warning in safety-critical maritime operations.

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Publication Details

Journal
Engineering Applications of Artificial Intelligence
Published
2025-10-04
DOI
https://doi.org/10.1016/j.engappai.2025.112467
Primary Topic
Maritime Navigation and Safety
Type
article
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article

Vessel behavior recognition method for preventing vessel-bridge collisions via adaptive video analytics

Daoxin Chen, Ye Xia, Dongming Feng, Woqin Luo
Engineering Applications of Artificial Intelligence
Maritime Navigation and Safety
article

Vessel behavior recognition method for preventing vessel-bridge collisions via adaptive video analytics

Daoxin Chen, Ye Xia, Dongming Feng, Woqin Luo
article en

Abstract

This study presents a comprehensive end-to-end framework for recognizing vessel behaviors aimed at preventing vessel-bridge collisions in complex maritime environments. Current monitoring approaches that rely on Automatic Identification Systems or external tracking mechanisms often suffer from class imbalance, cross-domain variability, and limited capability to detect previously unseen high-risk behaviors. To address these challenges, the proposed framework directly analyzes video streams and introduces a standardized behavioral taxonomy, classifying vessel activities into eleven categories while incorporating temporal continuity and behavior transition modeling. A robust dataset construction pipeline is established, consisting of fixed-length frame sequences and mechanisms for cross-domain generalization. The framework integrates a spatio-temporal feature extraction module based on deformable convolution and multi-scale attention, coupled with a cross-instance mutual enhancement mechanism to capture domain-invariant representations. An open-set recognition strategy, grounded in class anchor clustering, enables accurate identification of previously unobserved high-risk behaviors. Furthermore, an adaptive frame sampling strategy dynamically adjusts sampling density around behavior transitions, enhancing recall and capturing infrequent events while minimizing computational cost. Extensive evaluations on both single-domain and multi-domain benchmark datasets, as well as real-world bridge video streams, demonstrate superior performance in terms of overall accuracy, F1-score, detection of rare behaviors, and recall compared with baseline methods. Ablation studies confirm the contribution of each component, and comparisons with open-set recognition methods underscore the practical utility of the proposed approach for anomaly detection. This framework provides a scalable, artificial intelligence-driven solution for vessel behavior recognition, anomaly detection, and cross-domain generalization, supporting intelligent monitoring and early warning in safety-critical maritime operations.

Engineering Applications of Artificial IntelligenceVol. 162
Tongji University (CN), Shanghai FRP Research Institute (China) (CN), Southeast University (CN)
Openalex Percentile: Top 66%
Maritime Navigation and Safety
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